The properties of microcrystalline silicon prepared by hot-wire chemical vapor deposition at various substrate temperatures and process-gas mixtures have been investigated with a view to the application of the material in thin-film solar cells. It was found that high deposition temperatures and strong hydrogen dilution of the process gas have detrimental effects on the electronic performance of the material. It is proposed that under these preparation conditions, hydrogen etching and the thermal desorption of hydrogen lead to poor grain-boundary passivation. We conclude that optimum microcrystalline-silicon solar-cell material is not necessarily obtained with the largest grain sizes and apparent highest crystalline content, but rather by ma...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Microcrystalline silicon (mu c-Si:H) of superior quality can be prepared using the hot-wire chemical...
The hot-wire deposition of muc-Si:H at low substrate and filament temperatures improves the material...
Microcrystalline silicon (muc-Si:H) prepared by hot-wire chemical vapour deposition (HWCVD) at low s...
The influence of various deposition parameters on the electrical and optical properties and the stru...
The application of microcrystalline silicon (muc-Si:H) in thin-film solar cells is addressed in the ...
The development of microcrystalline silicon (muc-Si:H) for solar cells has made good progress with e...
High rate growth process, material quality and related solar cell performance of hydrogenated microc...
Undoped hydrogenated microcrystalline silicon was obtained by hot-wire chemical vapour deposition at...
The development of microcrystalline silicon (μc-Si:H) for solar cells has made good progress with ef...
Crystalline silicon carbide alloys have a very high potential as transparent conductive window layer...
Hot-Wire Chemical Vapor Deposition has led to microcrystalline silicon solar cell efficiencies simil...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Microcrystalline silicon (mu c-Si:H) of superior quality can be prepared using the hot-wire chemical...
The hot-wire deposition of muc-Si:H at low substrate and filament temperatures improves the material...
Microcrystalline silicon (muc-Si:H) prepared by hot-wire chemical vapour deposition (HWCVD) at low s...
The influence of various deposition parameters on the electrical and optical properties and the stru...
The application of microcrystalline silicon (muc-Si:H) in thin-film solar cells is addressed in the ...
The development of microcrystalline silicon (muc-Si:H) for solar cells has made good progress with e...
High rate growth process, material quality and related solar cell performance of hydrogenated microc...
Undoped hydrogenated microcrystalline silicon was obtained by hot-wire chemical vapour deposition at...
The development of microcrystalline silicon (μc-Si:H) for solar cells has made good progress with ef...
Crystalline silicon carbide alloys have a very high potential as transparent conductive window layer...
Hot-Wire Chemical Vapor Deposition has led to microcrystalline silicon solar cell efficiencies simil...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...
Thin-film silicon exists in different phases, ranging from amorphous via microcrystalline to single ...